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Engineers solve the paradox of why tissue gets stiffer when compressed
microscopic tissue

Engineers solve the paradox of why tissue gets stiffer when compressed

Tissue gets stiffer when it’s compressed. That stiffening response is a long-standing biomedical paradox, as common sense dictates that when you push the ends of a string together, it loosens tension, rather than increasing it. New research explains the mechanical interplay between that fiber network and the cells it contains.

Penn Today Staff

From the classroom to the lab and back again
a person sitting at a microscope looking at a computer screen surrounded by pipet boxes, chemicals, and cabinetry

From the classroom to the lab and back again

Senior Adithya Sriram is busy earning two degrees, researching new applications for graphene, and preparing physics courses for students in West Philadelphia.

Erica K. Brockmeier

Can the additive tree expand machine learning in medicine?
A scan of a human body analyzed by AI tools.

nocred

Can the additive tree expand machine learning in medicine?

By combining elements of two widely used prediction models, the “additive tree” is a highly predictive model that is also easy to interpret.

Penn Today Staff

New chip poised to enable handheld microwave imaging
Two versions of the letter P from the Penn logo, an example of the new microwave imaging chip's ability.

The researchers showed that the new microwave imager chip could form images of simple objects such as this metallic Penn logo. Unlike light, microwaves can travel through certain opaque objects, making microwave imagers potentially useful in a wide variety of applications. (Image: Farshid Ashtiani)

New chip poised to enable handheld microwave imaging

Penn researchers show that the new microwave imager chip could form images of simple objects. Unlike light, microwaves can travel through certain opaque objects, making microwave imagers potentially useful in a wide variety of applications.

Penn Today Staff

New topological insulator can reroute photonic ‘traffic’ on the fly
Abstract background with circuit.

New topological insulator can reroute photonic ‘traffic’ on the fly

Penn researchers, who first discovered topological insulators in 2005, have shown, for the first time, a way for a topological insulator to make use of its entire footprint without wasted space throughout the material’s interior.

Penn Today Staff

A ‘quantum leap’ for quantum information science
a group of 40 people posing on a staircase

Experts from external institutions and members of the Penn community joined together for two days of lively discussions about the future of room temperature quantum logic using atomically-thin materials for NSF’s Enabling Quantum Leap symposium, which was held at the Singh center (Image: Felice Macera).

A ‘quantum leap’ for quantum information science

By bringing together experts across campus and across disciplines, Penn is poised to lead ongoing efforts towards developing quantum applications using atomically-thin materials.

Erica K. Brockmeier

A model for brain activity during brain stimulation therapy
an abstract depiction of a brain in multi-colors

A model for brain activity during brain stimulation therapy

Combined with data from other stimulation experiments , these models could help researchers determine the specific patterns of brain activity to target for improving memory.

Penn Today Staff

The virtual assistant
hand holding a tablet

The virtual assistant

Artificial intelligence has permeated many corners of life, from consumer purchasing and media consumption to health care—sometimes in ways we don’t even know.

Michele W. Berger